If Turing played piano with an artificial partner
Dobromir Dotov, Dante Camarena, Zack Harris, Joanna Spyra, Pietro, Gagliano, Laurel Trainor

TL;DR
This study explores whether neural network-based artificial partners can create a convincing social piano-playing experience, finding that simplicity and interaction are key factors over generative complexity.
Contribution
It demonstrates that a variational autoencoder trained on musical scores can serve as an artificial partner in social piano playing, emphasizing interaction over complexity.
Findings
Artificial partners are rated lower than humans but show promise.
Simpler artificial partners can match human ratings on some measures.
Interactive design is more crucial than generative sophistication.
Abstract
Music is an inherently social activity that allows people to share experiences and feel connected with one another. There has been little progress in designing artificial partners exhibiting a similar social experience as playing with another person. Neural network architectures that implement generative models, such as large language models, are suited for producing musical scores. Playing music socially, however, involves more than playing a score; it must complement the other musicians' ideas and keep time correctly. We addressed the question of whether a convincing social experience is made possible by a generative model trained to produce musical scores, not necessarily optimized for synchronization and continuation. The network, a variational autoencoder trained on a large corpus of digital scores, was adapted for a timed call-and-response task with a human partner. Participants…
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Taxonomy
TopicsCellular Automata and Applications · Computability, Logic, AI Algorithms · DNA and Biological Computing
